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mtDNA · 母亲 lineage

R9C1

mtDNA Haplogroup R9C1

一个家族分支的参考简介 。 共享haplogroups 无法建立家庭关系或文化认同 。

参考简介

部门背景

mtDNA 谱系分支 R9C1 的历史背景

Origins and Evolution

mtDNA haplogroup R9C1 is a downstream clade of R9C, itself derived from macro-haplogroup R9. Based on the parent R9C time depth (~22 kya) and observed patterns of diversity, R9C1 most likely originated in the Late Pleistocene to Early Holocene (roughly ~14 kya in this estimate) in southern China or adjacent Mainland Southeast Asia. Its emergence fits a pattern of postglacial diversification and local differentiation of maternal lineages in refugial populations of southern China and northern Mainland Southeast Asia.

R9C1 is defined by a set of private mitochondrial control-region and coding-region mutations relative to R9C; however, the full topology of downstream branches is still incompletely resolved because dense complete-mitogenome sampling across Southeast Asian populations remains limited. Where sampled, R9C1 shows modest internal diversity consistent with an origin in the Late Pleistocene and expansion or maintenance through the Holocene.

Subclades

As a subclade of R9C, R9C1 may include further downstream branches (for example labeled R9C1a, R9C1b in different databases when additional mutations are validated). Published mitogenome surveys have occasionally reported distinct R9C1 sublineages in Tai-Kadai, Austroasiatic and some Austronesian-speaking groups, but many of these putative subclades require confirmation with full mitogenomes and careful phylogenetic placement. Overall, the subclade structure suggests local diversification rather than a single recent long-range dispersal.

Geographical Distribution

R9C1 is geographically concentrated in southern China and Mainland Southeast Asia, with the highest frequencies observed among some local and minority populations in southern Chinese provinces and adjacent areas of Laos, Thailand and Vietnam. It occurs at moderate frequency among Tai-Kadai and some Austroasiatic-speaking groups (e.g., Dai, Zhuang, Mon-Khmer populations), at variable low-to-moderate frequency among Thai and Lao, and at low frequencies among Han Chinese in southern regions. Outside mainland areas, R9C1 is detected at low and sporadic frequencies in certain Austronesian-speaking populations (Taiwanese indigenous groups, parts of the Philippines and Indonesia) and very rarely in Near Oceania, consistent with limited female-mediated gene flow from the mainland during later Holocene movements.

The observed pattern—local concentration with occasional low-frequency presence in island groups—matches expectations for a lineage that diversified on the mainland and later participated, to a small degree, in maritime dispersals or in population contact between mainland Southeast Asia and island groups.

Historical and Cultural Significance

While direct associations between a single mtDNA subclade and archaeological cultures are always tentative, the distribution and time depth of R9C1 allow reasonable inferences. The lineage likely persisted through postglacial hunter-gatherer occupations (often associated broadly with the Hoabinhian and related lithic traditions in Mainland Southeast Asia) and then became incorporated into expanding Neolithic farming communities associated with Austroasiatic and later Tai-Kadai cultural trajectories. Genetic studies of Southeast Asia have repeatedly shown mixtures of late Pleistocene/early Holocene maternal lineages with incoming Neolithic maternal lineages; R9C1 appears to be part of the indigenous maternal substratum that continued into the Neolithic and later periods.

During the Austronesian expansion (mid-Holocene), R9C1's mainland-centered distribution meant only a minority of migrating or admixed coastal communities carried it into island settings, explaining its low but detectable presence in some Austronesian-speaking groups. In historical times, R9C1 remains most common among local mainland groups and present at low frequency in broader East and Southeast Asian populations.

Conclusion

R9C1 is an informative maternal marker for postglacial and Holocene demographic processes in southern China and Mainland Southeast Asia. Its phylogenetic position as a derivative of R9C and its geographic pattern—concentration on the mainland with sporadic island occurrences—point to an origin among late Pleistocene mainland populations followed by local persistence and limited spread with Neolithic and later movements. Greater mitogenome sampling, especially from underrepresented minority groups and ancient DNA from mainland Southeast Asia, will help clarify the finer-scale branching and demographic history of R9C1.

关键点

  • Origins and Evolution
  • Subclades
  • Geographical Distribution
  • Historical and Cultural Significance
  • Conclusion
参考简介

树形关系( N)

phylgenetic 上下文和子拼写

进化路径

沿已记录的上级分支追溯至 R9C1。年代为估计值,可能随参考数据更新而调整。

步骤 单倍群 年龄估计 考古时代 时间流逝 直系后裔 被测试的现代后裔 古代连接
1 R9C1 当前 ~14,000 years ago Mesolithic 14,000 years 1 6 0
2 R9C ~22,000 years ago Mesolithic 22,000 years 1 6 0
3 R9 ~40,000 years ago Paleolithic 40,000 years 3 281 0
4 R ~55,000 years ago Paleolithic 55,000 years 17 22,830 57
5 NA - - - 1 22,830 0
6 N ~60,000 years ago Paleolithic 60,000 years 16 26,150 13
7 L3 ~70,000 years ago Paleolithic 70,000 years 7 30,162 6
8 L3'4 - - - 2 30,212 0
9 L3'4'6 - - - 2 30,216 0
10 L2'3'4'6 - - - 2 31,333 0
11 L2'3'4'5'6'7 - - - 2 31,349 0
12 L1'2'3'4'5'6'7 - - - 2 31,852 0
13 L ~160,000 years ago Paleolithic 160,000 years 2 32,236 5
参考简介

哪里是这个世界

地理分布和现代存在

记录来源

Southeast Asia / southern China

现代发行

The populations where MTDNA haplogroup R9C1 is found include:

  1. Han Chinese (southern China, particularly in border regions and some minority groups)
  2. Dai, Zhuang and other Tai-Kadai speaking groups
  3. Thai and Lao populations
  4. Vietnamese and Khmer (Mon-Khmer) groups
  5. Austronesian-speaking groups (e.g., some Taiwanese indigenous peoples, Filipinos, Indonesians) at low to moderate frequency
  6. Malay and Sea Nomad communities (sporadic occurrences)
  7. Some Tibeto-Burman and southwestern Chinese groups (low frequency)
  8. Indigenous populations of Near Oceania (very low frequency, intermittent)
  9. Ethnic minorities in southern China and northern Mainland Southeast Asia
  10. Sparse occurrences among broader East Asian populations
历史背景

分枝穿越时间

大致历史时间范围内的估计形成情况:周期标志提供了背景,并不意味着与特定文化的联系。

  1. ~20k 年前

    上一个冰川最大值

    上一个冰河时代的高峰,人口隔离

  2. ~14k 年前

    Haplogroup R9C1

    此 mtDNA 分支的形成时间为推定值,日期和地点仅作参考。

    这个分支
  3. ~10k 年前

    新石器革命

    农业开始,定居社区形成

  4. ~5k 年前

    青铜时代

    金属加工、书写和早期文明

  5. ~3k 年前

    铁器时代

    铁工具,扩大贸易网络

  6. ~2.5k 年前

    古典时代

    希腊和罗马文明蓬勃发展

  7. 现

    现日

    现代时代

参考简介

考古学背景

已记录的 mtDNA 分支 R9C1 考古关联

有记录的协会

这些标签描述与 R9C1 相关的参考样本所处的考古背景。仅凭这种关联,无法判断所有携带者都属于某种文化或沿同一路线迁徙。

Afanasievo Culture Boisman Chinese Epipaleolithic Ganj Dareh Culture Island Southeast Asian Culture Linear Pottery Culture Russia_Omsk_Eneolithic_Chernoozersky Santa Rosa Island Culture Sardinian Neolithic Taiwanese Iron Ust-Ishim Culture
文化任务基于古代DNA样本的考古背景,可能代表特定时期的区域协会.
参考简介

样本目录

单倍群 R9C1 的子分支携带者 2 名(当前选定的参考样本中没有直接携带者)

2 显示 ^ 2 匹配样本

Portraits是AI生成的插图,样本标签和加入ID识别参考记录.

纵向 样本 国家 大纪元 日期 文化 mtDNA 匹配
AI生成的示例性肖像 Austronesian individual, Hanben. Blihun site, Taiwan (258-413 CE)
Sample ID: I3621
Taiwan Iron Age Taiwan 258 CE - 413 CE Taiwanese Iron R9c1b2 下游分支
AI生成的示例性肖像 Fujian Qihe Cave Epipaleolithic individual, Fujian. Zhangping. Qihe Cave, China (9,798-9,407 BCE)
Sample ID: Qihe3
China Epipaleolithic China 9798-9407 calBCE (10050±30 BP) Chinese Epipaleolithic R9c1b 下游分支
MATERNAL LINEAGE · ANCIENT DNA

古代世系证据地图

跟随母舰飞向这个分支 探索古代载体的发现地点

正在装入古老的观测...

标记是考古发现地点。一个破碎的连接器是连续分支之间一种不确定的、拟议中的地理过渡,辅以多个日期的观察;它不是一个准确的旅行路线、出生地或直接血统的证明。父系样本可能属于其他后代分支。在证据不足的地方,差距依然存在。样本日期与随机群形成日期不同。

参考简介

载体分布图

2 个古代 DNA 样本的地理分布,涵盖 R9C1 及其下游分支的携带者

子舱载体
时间段过滤器
所有时间段
显示全部样本
参考简介

时间分布

载体在考古时期的分布

参考简介

地理分布

按有记录的抽样国家计算,反映的是现有的参考选择,而不是人口频率。

参考简介

国家 × 大纪元发行

比较各国和考古时期记录的样本数量。选择一个人口密集的细胞来检查样本。

数据

数据证明( P)

来源信息和数据质量

上次更新 2026-02-16
信心分数 50/100
覆盖范围 Low

数据来源

分类、估计日期和地理背景反映了所记录的参考数据,随着证据的修订而可能发生变化,样本覆盖范围不均匀;所记录的地点和考古协会没有确定个人出身或文化特征。